all-in-one-audio

Maintainer: erickluis00

Total Score

4

Last updated 9/19/2024
AI model preview image
PropertyValue
Run this modelRun on Replicate
API specView on Replicate
Github linkView on Github
Paper linkNo paper link provided

Create account to get full access

or

If you already have an account, we'll log you in

Model overview

The all-in-one-audio model is an AI-powered music analysis and stem separation tool created by erickluis00. It combines the capabilities of the Demucs and MDX-Net models to provide a comprehensive audio processing solution. The model can analyze music structure, separate audio into individual stems (such as vocals, drums, and bass), and generate sonifications and visualizations of the audio data. It is similar to other audio separation models like demucs and spleeter, but offers a more all-in-one approach.

Model inputs and outputs

The all-in-one-audio model takes a music input file and several optional parameters to control the analysis and separation process. The outputs include the separated audio stems, as well as sonifications and visualizations of the audio data.

Inputs

  • music_input: An audio file to be analyzed and processed.
  • sonify: A boolean flag to save sonifications of the analysis results.
  • visualize: A boolean flag to save visualizations of the analysis results.
  • audioSeparator: A boolean flag to enable audio separation using the MDX-net model.
  • include_embeddings: A boolean flag to include audio embeddings in the analysis results.
  • include_activations: A boolean flag to include activations in the analysis results.
  • audioSeparatorModel: The name of the pre-trained model to use for audio separation.

Outputs

  • mdx_other: An array of URIs for the separated "other" stems (such as instruments) using the MDX-net model.
  • mdx_vocals: A URI for the separated vocal stem using the MDX-net model.
  • demucs_bass: A URI for the separated bass stem using the Demucs model.
  • demucs_drums: A URI for the separated drum stem using the Demucs model.
  • demucs_other: A URI for the separated "other" stem using the Demucs model.
  • demucs_piano: A URI for the separated piano stem using the Demucs model.
  • sonification: A URI for the generated sonification of the analysis results.
  • demucs_guitar: A URI for the separated guitar stem using the Demucs model.
  • demucs_vocals: A URI for the separated vocal stem using the Demucs model.
  • visualization: A URI for the generated visualization of the analysis results.
  • analyzer_result: A URI for the overall analysis results.
  • mdx_instrumental: A URI for the separated instrumental stem using the MDX-net model.

Capabilities

The all-in-one-audio model can analyze the structure of music and separate the audio into individual stems, such as vocals, drums, and instruments. It uses the Demucs and MDX-Net models to achieve this, combining their strengths to provide a comprehensive audio processing solution.

What can I use it for?

The all-in-one-audio model can be used for a variety of music-related applications, such as audio editing, music production, and music analysis. It can be particularly useful for producers, musicians, and researchers who need to work with individual audio stems or analyze the structure of music. For example, you could use the model to separate the vocals from a song, create remixes or mashups, or study the relationships between different musical elements.

Things to try

Some interesting things to try with the all-in-one-audio model include:

  • Experimenting with the different audio separation models (Demucs and MDX-Net) to see which one works best for your specific use case.
  • Generating sonifications and visualizations of the audio data to gain new insights into the music.
  • Combining the separated audio stems in creative ways to produce new musical compositions.
  • Analyzing the structure of music to better understand the relationships between different musical elements.


This summary was produced with help from an AI and may contain inaccuracies - check out the links to read the original source documents!

Related Models

AI model preview image

all-in-one-music-structure-analyzer

sakemin

Total Score

4

all-in-one-music-structure-analyzer is a Cog implementation of the "All-In-One Music Structure Analyzer" model developed by Taejun Kim. This model provides a comprehensive analysis of music structure, including tempo (BPM), beats, downbeats, functional segment boundaries, and functional segment labels (e.g., intro, verse, chorus, bridge, outro). The model is trained on the Harmonix Set dataset and uses neighborhood attentions on demixed audio to achieve high performance. This model is similar to other music analysis tools like musicgen-fine-tuner and musicgen-remixer created by the same maintainer, sakemin. Model inputs and outputs The all-in-one-music-structure-analyzer model takes an audio file as input and outputs a detailed analysis of the music structure. The analysis includes tempo (BPM), beat positions, downbeat positions, and functional segment boundaries and labels. Inputs Music Input**: An audio file to analyze. Outputs Tempo (BPM)**: The estimated tempo of the input audio in beats per minute. Beats**: The time positions of the detected beats in the audio. Downbeats**: The time positions of the detected downbeats in the audio. Functional Segment Boundaries**: The start and end times of the detected functional segments in the audio. Functional Segment Labels**: The labels of the detected functional segments, such as intro, verse, chorus, bridge, and outro. Capabilities The all-in-one-music-structure-analyzer model can provide a comprehensive analysis of the musical structure of an audio file, including tempo, beats, downbeats, and functional segment information. This information can be useful for various applications, such as music information retrieval, automatic music transcription, and music production. What can I use it for? The all-in-one-music-structure-analyzer model can be used for a variety of music-related applications, such as: Music analysis and understanding**: The detailed analysis of the music structure can be used to better understand the composition and arrangement of a musical piece. Music editing and production**: The beat, downbeat, and segment information can be used to aid in tasks like tempo matching, time stretching, and sound editing. Automatic music transcription**: The model's output can be used as a starting point for automatic music transcription systems. Music information retrieval**: The structural information can be used to improve the performance of music search and recommendation systems. Things to try One interesting thing to try with the all-in-one-music-structure-analyzer model is to use the segment boundary and label information to create visualizations of the music structure. This can provide a quick and intuitive way to understand the overall composition of a musical piece. Another interesting experiment would be to use the model's output as a starting point for further music analysis or processing tasks, such as chord detection, melody extraction, or automatic music summarization.

Read more

Updated Invalid Date

AI model preview image

demucs

ryan5453

Total Score

344

Demucs is an audio source separator created by Facebook Research. It is a powerful AI model capable of separating audio into its individual components, such as vocals, drums, and instruments. Demucs can be compared to other similar models like Demucs Music Source Separation, Zero shot Sound separation by arbitrary query samples, and Separate Anything You Describe. These models all aim to extract individual audio sources from a mixed recording, allowing users to isolate and manipulate specific elements. Model inputs and outputs The Demucs model takes in an audio file and allows the user to customize various parameters, such as the number of parallel jobs, the stem to isolate, the specific Demucs model to use, and options related to splitting the audio, shifting, overlapping, and clipping. The model then outputs the processed audio in the user's chosen format, whether that's MP3, WAV, or another option. Inputs Audio**: The file to be processed Model**: The specific Demucs model to use for separation Stem**: The audio stem to isolate (e.g., vocals, drums, bass) Jobs**: The number of parallel jobs to use for separation Split**: Whether to split the audio into chunks Shifts**: The number of random shifts for equivariant stabilization Overlap**: The amount of overlap between prediction windows Segment**: The segment length to use for separation Clip mode**: The strategy for avoiding clipping MP3 preset**: The preset for the MP3 output WAV format**: The format for the WAV output MP3 bitrate**: The bitrate for the MP3 output Outputs The processed audio file in the user's chosen format Capabilities Demucs is capable of separating audio into its individual components with high accuracy. This can be useful for a variety of applications, such as music production, sound design, and audio restoration. By isolating specific elements of a mixed recording, users can more easily manipulate and enhance the audio to achieve their desired effects. What can I use it for? The Demucs model can be used in a wide range of projects, from music production and audio editing to sound design and post-production. For example, a musician could use Demucs to isolate the vocals from a recorded song, allowing them to adjust the volume or apply effects without affecting the other instruments. Similarly, a sound designer could use Demucs to extract specific sound elements from a complex audio file, such as the footsteps or ambiance, for use in a video game or film. Things to try One interesting thing to try with Demucs is experimenting with the different model options, such as the number of shifts and the overlap between prediction windows. Adjusting these parameters can have a significant impact on the separation quality and processing time, allowing users to find the optimal balance for their specific needs. Additionally, users could try combining Demucs with other audio processing tools, such as EQ or reverb, to further enhance the separated audio elements.

Read more

Updated Invalid Date

AI model preview image

demucs

cjwbw

Total Score

131

demucs is a state-of-the-art music source separation model developed by researchers at Facebook AI Research. It is capable of separating drums, bass, vocals, and other accompaniment from audio tracks. The latest version, Hybrid Transformer Demucs (v4), uses a hybrid spectrogram and waveform architecture with a Transformer encoder-decoder to achieve high-quality separation performance. This builds on the previous Hybrid Demucs (v3) model, which won the Sony MDX challenge. demucs is similar to other advanced source separation models like Wave-U-Net, Open-Unmix, and D3Net, but achieves state-of-the-art results on standard benchmarks. Model inputs and outputs demucs takes as input an audio file in a variety of formats including WAV, MP3, FLAC, and more. It outputs the separated audio stems for drums, bass, vocals, and other accompaniment as individual stereo WAV or MP3 files. Users can also choose to output just the vocals or other specific stems. Inputs audio**: The input audio file to be separated stem**: The specific stem to separate (e.g. vocals, drums, bass) or "no_stem" to separate all stems model_name**: The pre-trained model to use for separation, such as htdemucs, htdemucs_ft, or mdx_extra shifts**: The number of random shifts to use for equivariant stabilization, which improves quality but increases inference time overlap**: The amount of overlap between prediction windows clip_mode**: The strategy for avoiding clipping in the output, either "rescale" or "clamp" float32**: Whether to output the audio as 32-bit float instead of 16-bit integer mp3_bitrate**: The bitrate to use when outputting the audio as MP3 Outputs drums.wav**: The separated drums stem bass.wav**: The separated bass stem vocals.wav**: The separated vocals stem other.wav**: The separated other/accompaniment stem Capabilities demucs is a highly capable music source separation model that can extract individual instrument and vocal tracks from complex audio mixes with high accuracy. It outperforms many previous state-of-the-art models on standard benchmarks like the MUSDB18 dataset. The latest Hybrid Transformer Demucs (v4) model achieves 9.0 dB SDR, which is a significant improvement over earlier versions and other leading approaches. What can I use it for? demucs can be used for a variety of music production and audio engineering tasks. It enables users to isolate individual elements of a song, which is useful for tasks like: Karaoke or music removal - Extracting just the vocals to create a karaoke track Remixing or mash-ups - Separating the drums, bass, and other elements to remix a song Audio post-production - Cleaning up or enhancing specific elements of a mix Music education - Isolating instrument tracks for practicing or study Music information retrieval - Analyzing the individual components of a song The model's state-of-the-art performance and flexible interface make it a powerful tool for both professionals and hobbyists working with audio. Things to try Some interesting things to try with demucs include: Experimenting with the different pre-trained models to find the best fit for your audio Trying the "two-stems" mode to extract just the vocals or other specific element Utilizing the "shifts" option to improve separation quality, especially for complex mixes Applying the model to a diverse range of musical genres and styles to see how it performs The maintainer, cjwbw, has also released several other impressive audio models like audiosep, video-retalking, and voicecraft that may be of interest to explore further.

Read more

Updated Invalid Date

🔮

spleeter

soykertje

Total Score

108

spleeter is a source separation library developed by Deezer that can split audio into individual instrument or vocal tracks. It uses a deep learning model trained on a large dataset to isolate different components of a song, such as vocals, drums, bass, and other instruments. This can be useful for tasks like music production, remixing, and audio analysis. Compared to similar models like whisper, speaker-diarization-3.0, and audiosep, spleeter is specifically focused on separating musical sources rather than speech or general audio. Model inputs and outputs The spleeter model takes an audio file as input and outputs individual tracks for the different components it has detected. The model is flexible and can separate the audio into 2, 4, or 5 stems, depending on the user's needs. Inputs Audio**: An audio file in a supported format (e.g. WAV, MP3, FLAC) Outputs Separated audio tracks**: The input audio separated into individual instrument or vocal tracks, such as: Vocals Drums Bass Other instruments Capabilities spleeter can effectively isolate the different elements of a complex musical mix, allowing users to manipulate and process the individual components. This can be particularly useful for music producers, sound engineers, and audio enthusiasts who want to access the individual parts of a song for tasks like remixing, sound design, and audio analysis. What can I use it for? The spleeter model can be used in a variety of music-related applications, such as: Music production**: Isolate individual instruments or vocals to edit, process, or remix a song. Karaoke and backing tracks**: Extract the vocal stem from a song to create karaoke tracks or backing instrumentals. Audio analysis**: Separate the different components of a song to study their individual characteristics or behavior. Sound design**: Use the isolated instrument tracks to create new sound effects or samples. Things to try One interesting thing to try with spleeter is to experiment with the different output configurations (2, 4, or 5 stems) to see how the separation quality and level of detail varies. You can also try applying various audio processing techniques to the isolated tracks, such as EQ, compression, or reverb, to create unique sound effects or explore new creative possibilities.

Read more

Updated Invalid Date